Problem 1. Use S-R flip-flops to design a 3-bit counter (C, B, A) with the repeating...
Problem 1. Use S-R flip-flops to design a 3-bit counter (C, B, A) with the repeating binary counting sequence: 1, 3, 2, 6, 7, 5, 4. Show clearly the following: (a) The circuit's state table with the present-state entries in ascending order. Present State (t) Next State (t+1) Flip-flop Inputs C B А m C B А Sc Rc SB RB SA RA 14 pts. Required format of the state table in Problem 1(a). Show table grid lines and align...
Use S-R flip-flops to design a 3-bit counter (C, B, A) with the repeating binary counting sequence: 1, 3, 2, 6, 7, 5, 4. Show clearly the following: (a) The circuit's state table with the present-state entries in ascending order. Present State (t) Next State (t+1) Flip-flop Inputs с B A m с B A Sc Rc SB RE SA RA Required format of the state table in Problem 1(a). Show table grid lines and align all entries per column....
Using S-R flip-flops, design a 3-bit counter (C,B,A) with the repeating binary counting sequence: 1, 3, 2, 6, 7, 5, 4. - Show the circuit's state table with the present-state entries in ascending order, which should have the present state (t), next state (t+1), and flip-flop inputs. - Find the flip-flop input equations for RC, RB, and RA in Product of Sums form.
Problem 2 Design a BCD counter that uses four(4) T flip-flops using the given table format below. The output signal Y = 0 only during the counter transition from 1001 to 0000, otherwise, Y = 1 (for each valid input). Determine the following: (a) The circuit's state table 14 pts. Present State Next State Output Minterm Flip-Flop Inputs Q8 Q4 Q2 Q1 Q8Q4Q2 Y (m) TQ8 TQ4 TQ2 TQ1 Q1 Required format of the state table in Problem 2(a). Show...
Problem 2 Design a BCD counter that uses four(4) T flip-flops using the given table format below. The output signal Y = 0 only during the counter transition from 1001 to 0000, otherwise, Y = 1 (for each valid input). Determine the following: (a) The circuit's state table Present State Next State Output Minterm Flip-Flop Inputs Q4 Q1 Q4 Q1 Y (m) TQ8 T04 TQ2 T01 14 pts. Required format of the state table in Problem 2(a). Show table grid...
Design a BCD counter that uses four(4) T flip-flops using the given table format below. The output signal Y = 0 only during the counter transition from 1001 to 0000, otherwise, Y = 1 (for each valid input). Determine the following: (a) The circuit's state table Present State Next State Output Minterm Flip-Flop Inputs Q. Q4 Q1 Q: Q4 Q2 Q1 Y (m) T24 T02 TQ1 T08 Required format of the state table in Problem 2(a). Show table grid lines...
Design a 5-bit binary counter using JK flip flops. Draw the flip-flop circuit diagram, the state graph, the timing diagram, the truth table (with clk pulse) and the state table (with present and next states).
1) Design a synchronous 3-bit binary UP/DOWN counter uses the following counting pattern 10.2.3.7.6.40.1.3...) the counter will count in this pattern indefinitely when the input X is equal to 1. When the input the counter will reverse direction and count in the opposite pattern 0. 4 7310) Complete the state diagram, transition table, New state s and solve for the recitation equations for flipflops that will perform this function. (You do not need to draw the flip-flops Use the state...
Design a BCD counter with four T flip-flops. - The state table should have the present state, next state, output, minterm, and flip-flop inputs. The output signal Y = 0 only during the counter transition from 1001 to 0000, otherwise, Y = 1 (for each valid input). - The input equation for TQ4, TQ2 and TQ1 in SOP. - The equation of the output signal Y in SOP.
Design a 4-bit binary up counter (like the following state diagram) using JK flip flops. State diagram. 0000 0001 11111 (a) Draw the state table with the input values for J K flip flops(b) Simplify the input equations by K map (c) Draw the logic diagram